<?xml version="1.0" encoding="UTF-8"?><rss version="2.0"><channel><title>Zhongde Precision Technical Articles</title><description>Engineering articles on precision manufacturing, AI liquid cooling, humanoid robots, and optical transceiver structural parts.</description><link>https://www.zdpmt.com/en</link><language>en</language><item><title>What Is Embodied AI? One Intelligent Agent Across Different Robot Forms and Precision Manufacturing</title><link>https://www.zdpmt.com/en/resources/embodied-ai-humanoid-robot-precision-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/embodied-ai-humanoid-robot-precision-manufacturing</guid><description>A manufacturing-focused explanation of embodied AI: how one intelligent agent can be adapted to humanoid, quadruped, mobile manipulator, industrial and specialized robots, and how AI commands become physical motion through actuators and precision mechanical components.</description><pubDate>Thu, 13 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>Embodied AI</category><category>Intelligent Agent</category><category>Humanoid Robot</category><category>Joint Actuator</category><category>Precision Machining</category><category>CTQ</category><category>Tolerance Stack-Up</category><author>仲德精密工程团队</author></item><item><title>How to Choose Materials for Fishing Reel Handle Knobs: Carbon Fiber, Aluminum, Titanium, Plastics and Custom Manufacturing</title><link>https://www.zdpmt.com/en/resources/fishing-reel-handle-knob-material-selection-custom-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/fishing-reel-handle-knob-material-selection-custom-manufacturing</guid><description>Compare carbon fiber, forged carbon, aluminum, titanium, stainless steel, engineering plastics and EVA for fishing reel handle knobs, then connect material choice to ergonomics, bearings, shaft interfaces, saltwater durability, CTQs and custom manufacturing.</description><pubDate>Thu, 13 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>General Precision Manufacturing</category><category>fishing reel handle knob</category><category>carbon fiber knob</category><category>T-bar knob</category><category>power knob</category><category>reel customization</category><category>OEM manufacturing</category><category>precision reel parts</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Are Robot Dogs Made? Precision Manufacturing of Quadruped Robot Leg Joints, Actuators, Links, and Foot Structures</title><link>https://www.zdpmt.com/en/resources/quadruped-robot-leg-joint-precision-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/quadruped-robot-leg-joint-precision-manufacturing</guid><description>Understand quadruped robots from a manufacturing perspective: hip joints, knee joints, actuators, leg links, and foot structures, as well as key CTQs such as coaxiality, bearing seats, impact loading, fatigue, sealing, and production consistency.</description><pubDate>Thu, 13 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>General Precision Manufacturing</category><category>Quadruped Robot</category><category>Robot Dog</category><category>Robot Joint</category><category>Joint Actuator</category><category>Precision Machining</category><category>CTQ</category><category>Tolerance Stack-Up</category><author>Zhongde Precision</author></item><item><title>Fishing Reel Aluminum Surface Finishing: Anodizing, Polishing and Color Consistency Control</title><link>https://www.zdpmt.com/en/resources/fishing-reel-aluminum-anodizing-cosmetic-finish-control</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/fishing-reel-aluminum-anodizing-cosmetic-finish-control</guid><description>A manufacturing guide to anodized fishing reel frames, side plates, spools and handle parts, covering CNC texture, polishing or blasting, color variation, masking, functional fits, cosmetic standards and batch consistency.</description><pubDate>Wed, 12 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>General Precision Manufacturing</category><category>fishing reel surface finishing</category><category>aluminum anodizing</category><category>cosmetic aluminum parts</category><category>polishing</category><category>color consistency</category><category>cosmetic quality</category><author>Zhongde Precision Engineering Team</author></item><item><title>Why Fishing Reel Frames and Side Plates Deform: Thin-Wall Aluminum CNC Machining and Dimensional Control</title><link>https://www.zdpmt.com/en/resources/fishing-reel-frame-side-plate-deformation-control</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/fishing-reel-frame-side-plate-deformation-control</guid><description>Learn why thin-wall fishing reel frames and side plates can deform after CNC machining, unclamping, surface finishing and assembly, and how CTQs such as bearing bores, datums and axis relationships should be controlled.</description><pubDate>Wed, 12 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>General Precision Manufacturing</category><category>fishing reel frame</category><category>side plate</category><category>thin-wall machining</category><category>aluminum CNC machining</category><category>distortion control</category><category>CTQ</category><author>Zhongde Precision Engineering Team</author></item><item><title>Why Fishing Reel Gears Feel Smooth or Rough: Center Distance, Shaft Alignment, Bearing Seats and Gear Mesh</title><link>https://www.zdpmt.com/en/resources/fishing-reel-gear-shaft-bearing-alignment</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/fishing-reel-gear-shaft-bearing-alignment</guid><description>A manufacturing guide to fishing reel gear feel, explaining how main gear and pinion accuracy, center distance, shaft alignment, bearing seats, runout, shims, burrs and assembly stack-up determine actual gear mesh.</description><pubDate>Wed, 12 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>General Precision Manufacturing</category><category>fishing reel gears</category><category>gear center distance</category><category>shaft alignment</category><category>bearing seats</category><category>gear mesh</category><category>tolerance stack</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Fishing Reel Spools Are Machined: Thin-Wall Distortion, Shaft Runout, Dynamic Balance and Surface Finishing</title><link>https://www.zdpmt.com/en/resources/fishing-reel-spool-machining-runout-balance</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/fishing-reel-spool-machining-runout-balance</guid><description>A manufacturing guide to fishing reel spool machining for baitcasting and conventional reels, covering thin-wall distortion, shaft runout, radial and face runout, dynamic balance, anodizing, CTQs and production control.</description><pubDate>Wed, 12 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>General Precision Manufacturing</category><category>fishing reel spool</category><category>spool machining</category><category>thin-wall CNC</category><category>shaft runout</category><category>dynamic balance</category><category>precision reel parts</category><author>Zhongde Precision Engineering Team</author></item><item><title>Harmonic Reducer vs Planetary Gear Reducer for Humanoid Robots: Design, Selection and Precision Machining</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-harmonic-vs-planetary-reducers</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-harmonic-vs-planetary-reducers</guid><description>Compare harmonic and planetary reducers for humanoid robot joints by architecture, ratio, backlash, stiffness, efficiency and shock loading, then connect those choices to actuator housings, bearing seats, reducer interfaces, output flanges and machining CTQs.</description><pubDate>Tue, 11 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>humanoid robot</category><category>harmonic reducer</category><category>planetary reducer</category><category>joint actuator</category><category>precision machining</category><category>CTQ</category><author>Zhongde Precision Engineering Team</author></item><item><title>Why Do Sealed Aluminum Castings Leak After Machining? Porosity, Shrinkage, Machining Stock and Leak Testing</title><link>https://www.zdpmt.com/en/resources/cast-aluminum-sealed-housing-leakage-after-machining</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/cast-aluminum-sealed-housing-leakage-after-machining</guid><description>Explains why a cast-aluminum sealed housing can pass as a blank but leak after CNC machining, covering porosity, shrinkage, cracks, machining allowance, final wall thickness, X-ray, industrial CT, leak testing, impregnation and production defect mapping.</description><pubDate>Mon, 10 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>General Precision Manufacturing</category><category>sealed aluminum casting</category><category>casting porosity</category><category>shrinkage porosity</category><category>leak testing</category><category>industrial CT</category><category>machining allowance</category><author>Zhongde Precision</author></item><item><title>How to Machine a PCS Liquid-Cooling Manifold: Cross-Hole Burrs, Flow Distribution, Sealing and Cleanliness CTQs</title><link>https://www.zdpmt.com/en/resources/pcs-liquid-cooling-manifold-machining</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/pcs-liquid-cooling-manifold-machining</guid><description>A manufacturing guide to PCS and high-power liquid-cooling manifolds, covering deep and cross holes, branch-flow distribution, O-ring and plug sealing, deburring, internal cleanliness, leak and pressure testing, materials and production SPC.</description><pubDate>Mon, 10 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>General Precision Manufacturing</category><category>liquid-cooling manifold</category><category>cross-hole machining</category><category>deburring</category><category>flow distribution</category><category>O-ring sealing</category><category>cleanliness</category><author>Zhongde Precision</author></item><item><title>Why Primary-Secondary Integrated Pole-Mounted Circuit Breakers Use Cast-Aluminum Sealed Housings</title><link>https://www.zdpmt.com/en/resources/primary-secondary-fusion-circuit-breaker-cast-aluminum-housing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/primary-secondary-fusion-circuit-breaker-cast-aluminum-housing</guid><description>Using the ZW68-12 as a case study, this article explains ZL104-T6 sealed cast-aluminum housings for dry-air insulated pole-mounted breakers, including flange flatness, O-ring grooves, bearing seats, casting defects, leak testing and production CTQs.</description><pubDate>Mon, 10 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>General Precision Manufacturing</category><category>primary-secondary integrated breaker</category><category>cast aluminum housing</category><category>ZL104-T6</category><category>sealed housing</category><category>leak testing</category><category>CNC interfaces</category><author>Zhongde Precision</author></item><item><title>Why Are Next-Generation AI Servers Moving from 54V to 800VDC? Precision-Manufactured Parts in AI Rack Power Systems</title><link>https://www.zdpmt.com/en/resources/ai-rack-54v-to-800vdc-precision-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/ai-rack-54v-to-800vdc-precision-manufacturing</guid><description>Starting with the current difference between 54V and 800VDC at a 1MW rack, this article explains NVIDIA&apos;s 800VDC AI Factory architecture, power sidecars, DC/DC conversion, busbars, backup units and the precision-manufactured mechanical and thermal parts that matter most.</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>General Precision Manufacturing</category><category>800VDC</category><category>AI Rack</category><category>AI Data Center Power</category><category>Power Sidecar</category><category>DC/DC</category><category>Busbar</category><category>Power Module</category><category>Precision Machining</category><author>Zhongde Precision Engineering Team</author></item><item><title>Why Does CPO Move Optics Inside the AI Switch? How Precision Structures, Thermal Management and CTQs Change</title><link>https://www.zdpmt.com/en/resources/cpo-ai-switch-precision-structures-thermal-management</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/cpo-ai-switch-precision-structures-thermal-management</guid><description>As co-packaged optics moves optical engines from the faceplate to millimeters from the switch ASIC, mechanical value shifts from small pluggable housings toward optical-engine carriers, heat spreaders, switch cold plates, fiber-management structures and system datums. This article translates five-language research into manufacturing CTQs and a practical Zhongde manufacturing scope.</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Optical Transceiver Structural Parts</category><category>CPO</category><category>Co-Packaged Optics</category><category>AI Switch</category><category>Optical Engine</category><category>Precision Structures</category><category>Thermal Management</category><category>Switch Cold Plate</category><category>Fiber Management</category><category>CTQ</category><category>Silicon Photonics</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Dual-Arm Embodied Robots Sort Parcels: What 1,200 Items per Hour at Guangzhou Post Tells Us</title><link>https://www.zdpmt.com/en/resources/dual-arm-embodied-robot-parcel-sorting</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/dual-arm-embodied-robot-parcel-sorting</guid><description>A manufacturing-focused look at fixed-workstation dual-arm parcel sorting robots, including flexible parcel handling, joint architecture, CTQs, lightweight structures and the path from prototype to repeatable production.</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>dual-arm robot</category><category>parcel sorting robot</category><category>embodied AI</category><category>robot joints</category><category>precision machining</category><author>Zhongde Precision</author></item><item><title>Humanoid Robot Joints Are Becoming Platformized: How Standard Actuators Could Reshape Precision Parts Supply Chains</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-actuator-platform-standardization</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-actuator-platform-standardization</guid><description>Using Schaeffler’s XXS-to-XL rotary actuator platform as a starting point, this article explains how actuator families could shift humanoid joint parts such as housings, shafts and output flanges from prototype job-shop work toward repeatable series production.</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>humanoid actuator platform</category><category>standardized joint modules</category><category>robot series production</category><category>actuator housing</category><category>output shafts and flanges</category><category>precision parts supply chain</category><category>Schaeffler</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Are IGBT and SiC Power-Module Cold Plates Manufactured? Flatness, Channels, Joining, Leakage and Corrosion</title><link>https://www.zdpmt.com/en/resources/igbt-sic-power-module-cold-plate-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/igbt-sic-power-module-cold-plate-manufacturing</guid><description>A manufacturing guide for IGBT and SiC liquid cold plates used in PCS, SVG and high-power converters, covering mounting flatness, flow channels, manifolds, vacuum brazing, FSW, leak and proof testing, cleanliness, corrosion and production CTQs.</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>General Precision Manufacturing</category><category>IGBT cold plate</category><category>SiC cold plate</category><category>power module liquid cooling</category><category>cold plate manufacturing</category><category>FSW</category><category>vacuum brazing</category><author>Zhongde Precision</author></item><item><title>Why High-Power PCS Is Moving to Liquid Cooling: IGBT/SiC Cold Plates and Manifolds Explained</title><link>https://www.zdpmt.com/en/resources/liquid-cooled-pcs-igbt-sic-cold-plate-manifold</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/liquid-cooled-pcs-igbt-sic-cold-plate-manifold</guid><description>A manufacturing-focused guide to liquid-cooled PCS thermal management, covering IGBT and SiC power modules, cold plates, manifolds, flatness, flow channels, joining, leak testing, corrosion and production scale-up.</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>AI Server Liquid Cooling</category><category>liquid-cooled PCS</category><category>IGBT cold plate</category><category>SiC liquid cooling</category><category>power electronics thermal management</category><category>manifold</category><author>Zhongde Precision</author></item><item><title>From 90% to 100% Heat Capture: Why AI Servers Need Full Liquid Cooling in the Rubin Era</title><link>https://www.zdpmt.com/en/resources/rubin-100-percent-liquid-cooling-heat-capture</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/rubin-100-percent-liquid-cooling-heat-capture</guid><description>A manufacturing-focused analysis of why 500kW AI racks push heat capture from 90% toward 100%, and how wider liquid-cooling coverage changes cold plates, manifolds, quick-disconnect interfaces, pressure drop, cleanliness, corrosion control and precision manufacturing.</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>AI Server Liquid Cooling</category><category>Rubin</category><category>100% Liquid Cooling</category><category>Heat Capture</category><category>Cold Plate</category><category>Manifold</category><category>Rack Liquid Cooling</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Aluminum Front Frames for AI Smart Glasses Are Made: 5-Axis CNC, Thin-Wall Distortion, Anodizing and Assembly CTQs</title><link>https://www.zdpmt.com/en/resources/ai-smart-glasses-aluminum-front-frame-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/ai-smart-glasses-aluminum-front-frame-manufacturing</guid><description>A manufacturing guide to multi-style development, aluminum stock, 5-axis CNC, thin-wall distortion, cosmetic toolpaths, anodizing, aluminum and PA part assembly, optical datums and production inspection for AI smart-glasses front frames.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>General Precision Manufacturing</category><category>AI smart glasses</category><category>aluminum front frame</category><category>5-axis CNC</category><category>thin-wall machining</category><category>anodizing</category><category>multi-material assembly</category><category>optical assembly</category><category>CTQ</category><author>Zhongde Precision Engineering Team</author></item><item><title>Why Anodized Aluminum Shows Color Variation: Material Lots, CNC Toolpaths, Blasting, Racking and Sealing Control</title><link>https://www.zdpmt.com/en/resources/aluminum-anodizing-color-variation-control</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/aluminum-anodizing-color-variation-control</guid><description>An engineering guide to color variation in anodized aluminum through alloy and lot control, machined base condition, anodic film, dye concentration and time, rack position, production load, sealing and visual limit samples.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>General Precision Manufacturing</category><category>anodizing color variation</category><category>color anodizing</category><category>material lot</category><category>CNC toolpath</category><category>blasting consistency</category><category>rack control</category><category>sealing</category><category>visual limit sample</category><author>Zhongde Precision Engineering Team</author></item><item><title>How to Choose Surface Finishes for Aluminum Cosmetic Parts: Sandblasting, Brushing, Anodizing, Painting and Their Dimensional Impact</title><link>https://www.zdpmt.com/en/resources/aluminum-cosmetic-surface-finish-selection</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/aluminum-cosmetic-surface-finish-selection</guid><description>An engineering guide to appearance consistency, wear and corrosion resistance, conductivity, dimensional compensation, edge condition and mass-production stability when selecting surface finishes for aluminum cosmetic parts.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>aluminum cosmetic parts</category><category>sandblasting</category><category>brushing</category><category>anodizing</category><category>painting</category><category>surface finish selection</category><category>dimensional impact</category><category>cosmetic production control</category><author>Zhongde Precision Engineering Team</author></item><item><title>Why Aluminum Parts Distort During Machining: Residual Stress, Fixturing, Material Removal Sequence and Finishing Control</title><link>https://www.zdpmt.com/en/resources/aluminum-part-machining-distortion-control</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/aluminum-part-machining-distortion-control</guid><description>An engineering guide to stock residual stress, cutting heat, tool condition, side clamping, hold-down force, balanced material removal, intermediate stabilization and free-state inspection for thin-wall aluminum parts.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>General Precision Manufacturing</category><category>aluminum machining</category><category>thin-wall distortion</category><category>residual stress</category><category>low-stress fixturing</category><category>balanced material removal</category><category>side clamping</category><category>free-state inspection</category><category>CNC process control</category><author>Zhongde Precision Engineering Team</author></item><item><title>How to Control Dimensions Before and After Anodizing: Film Thickness, Tolerances, Masking, Threads and Mating Surfaces</title><link>https://www.zdpmt.com/en/resources/anodizing-dimension-control-before-after-finishing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/anodizing-dimension-control-before-after-finishing</guid><description>A manufacturing guide to inward and outward film growth, pretreatment dissolution, bore and shaft compensation, masking, post-anodize machining, threads and conductive surfaces for dimensionally controlled CNC aluminum parts.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>anodizing</category><category>dimensional compensation</category><category>film thickness</category><category>fit tolerance</category><category>masking</category><category>threads</category><category>CNC aluminum</category><category>finishing DFM</category><author>Zhongde Precision Engineering Team</author></item><item><title>How to Clean High-Cosmetic Precision Parts After Polishing: Compound Removal, Degreasing, Ultrasonic Cleaning, Pure-Water Rinsing and Cleanliness Control</title><link>https://www.zdpmt.com/en/resources/cleaning-polished-high-cosmetic-precision-parts</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/cleaning-polished-high-cosmetic-precision-parts</guid><description>Explains why post-polishing precision cleaning combines chemical and physical action, identifies polishing compound, abrasive, metal powder, centrifugal-finishing compound, electrolyte, trapped liquid and secondary contamination, and gives a controlled route through precleaning, degreasing, heated chemistry, ultrasonics, spray rinsing, pure-water final rinse and drying.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>General Precision Manufacturing</category><category>precision cleaning</category><category>post-polishing cleaning</category><category>compound removal</category><category>ultrasonic cleaning</category><category>pure-water rinsing</category><category>cleanliness control</category><category>cosmetic parts</category><category>pre-coating cleaning</category><author>Zhongde Precision Engineering Team</author></item><item><title>Die Casting Plus CNC vs Billet CNC: Tooling, Cost, Porosity, Distortion and Production Boundaries</title><link>https://www.zdpmt.com/en/resources/die-casting-plus-machining-vs-billet-cnc</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/die-casting-plus-machining-vs-billet-cnc</guid><description>A manufacturing decision guide covering part geometry, volume, tooling, die-casting porosity, machining allowance, functional datums, finishing and validation when choosing die casting plus CNC or billet CNC.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>Humanoid Robot Joints</category><category>Optical Transceiver Structural Parts</category><category>General Precision Manufacturing</category><category>die casting machining</category><category>billet CNC</category><category>casting porosity</category><category>near-net-shape</category><category>machining allowance</category><category>tooling cost</category><category>production process</category><category>DFM</category><author>Zhongde Precision Engineering Team</author></item><item><title>How High-Cosmetic Precision Parts Are Ground and Polished: Robotic Grinding, Buffing, Barrel Finishing and Plasma Electrolytic Polishing</title><link>https://www.zdpmt.com/en/resources/grinding-polishing-high-cosmetic-precision-parts</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/grinding-polishing-high-cosmetic-precision-parts</guid><description>Defines acceptance criteria for high-cosmetic grinding and polishing, explains challenges such as casting lines, CNC tool marks, curved surfaces, thin-wall distortion, over-polishing and batch consistency, and compares robotic grinding, buffing, barrel finishing, manual detailing and plasma electrolytic polishing.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>General Precision Manufacturing</category><category>cosmetic precision parts</category><category>grinding and polishing</category><category>robotic grinding</category><category>buffing</category><category>barrel finishing</category><category>plasma electrolytic polishing</category><category>die-cast appearance</category><category>surface finishing</category><author>Zhongde Precision Engineering Team</author></item><item><title>How to Achieve High-Cosmetic Anodizing on Die-Cast Aluminum: Appearance Standards, Manufacturing Challenges and Production Solutions</title><link>https://www.zdpmt.com/en/resources/high-cosmetic-anodizing-die-cast-aluminum</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/high-cosmetic-anodizing-die-cast-aluminum</guid><description>Defines high-cosmetic anodizing by color, gloss, texture, defect limits and production consistency, then explains challenges from casting alloy, flow, porosity, release agent and mixed cast/CNC surfaces, with solutions from alloy and die design through casting, machining, blasting and anodizing.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>General Precision Manufacturing</category><category>aluminum die casting</category><category>high-cosmetic anodizing</category><category>casting surface</category><category>class-A surface</category><category>porosity control</category><category>CNC correction</category><category>blasted anodizing</category><category>production validation</category><author>Zhongde Precision Engineering Team</author></item><item><title>Humanoid Robot Body Shell Selection: Warm-Formed Magnesium, Injection-Molded Engineering Plastics and CFRP</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-body-shell-magnesium-plastic-carbon-fiber</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-body-shell-magnesium-plastic-carbon-fiber</guid><description>Compare warm-formed magnesium sheet, injection-molded engineering plastics and CFRP for humanoid robot body shells, including tooling, lightweighting, structural integration, assembly CTQs, finishing, dust control and production scale.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Material Knowledge</category><category>Humanoid Robot Joints</category><category>humanoid robot body shell</category><category>magnesium warm forming</category><category>engineering plastic injection molding</category><category>carbon fiber shell</category><category>CFRP</category><category>robot lightweighting</category><category>shell manufacturing</category><category>tooling and production</category><author>Zhongde Precision Engineering Team</author></item><item><title>Injection Molding Humanoid Robot Plastic Body Shells: Materials, Warpage, Inserts and Assembly Gaps</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-plastic-body-shell-injection-molding</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-plastic-body-shell-injection-molding</guid><description>A manufacturing guide to body-shell segmentation, PC-ABS and other engineering plastics, walls and ribs, gates and weld lines, shrinkage and warpage, inserts, coatings, EMI, assembly gaps and production validation.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>Humanoid Robot Joints</category><category>humanoid robot shell</category><category>engineering plastic injection molding</category><category>PC-ABS</category><category>injection mold</category><category>warpage control</category><category>metal inserts</category><category>assembly gaps</category><category>cosmetic part production</category><author>Zhongde Precision Engineering Team</author></item><item><title>How to Select Materials for Humanoid Robot Skeletons: Aluminum, Titanium, Magnesium, PA66, PA10T, PEEK and Carbon-Fiber Composites</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-skeleton-material-selection</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-skeleton-material-selection</guid><description>A table-led guide with engineering decision commentary comparing metals, PA66-GF, PA66-CF, PA10T, PEEK, PPS, continuous CFRP and CFRTP for primary links, secondary frames, functional parts and covers, including fatigue, creep, moisture, fiber orientation, joining, fall impact and production validation.</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>Material Knowledge</category><category>Humanoid Robot Joints</category><category>humanoid robot skeleton</category><category>lightweight materials</category><category>PA66</category><category>PA10T</category><category>PEEK</category><category>carbon-fiber composites</category><category>CFRP</category><category>CFRTP</category><category>aluminum</category><category>material selection</category><author>Zhongde Precision Engineering Team</author></item><item><title>6061 vs 6063 vs 7075 Aluminum: Function, Stock Form, Machining, Anodizing and Production Stability</title><link>https://www.zdpmt.com/en/resources/6061-6063-7075-aluminum-alloy-selection</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/6061-6063-7075-aluminum-alloy-selection</guid><description>A practical comparison of 6061, 6063, and 7075 aluminum based on part function, temper, plate-bar-tube-extrusion stock forms, CNC machining, anodizing, production risk, and RFQ requirements.</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>Material Knowledge</category><category>AI Server Liquid Cooling</category><category>Humanoid Robot Joints</category><category>Optical Transceiver Structural Parts</category><category>General Precision Manufacturing</category><category>6061 aluminum</category><category>6063 aluminum</category><category>7075 aluminum</category><category>aluminum alloy selection</category><category>CNC aluminum parts</category><category>aluminum extrusion</category><category>anodizing</category><category>aluminum temper</category><category>production stability</category><category>RFQ</category><author>Zhongde Precision Engineering Team</author></item><item><title>800G vs 1.6T Optical Transceivers: OSFP, QSFP-DD, Thermal Design and Structural Changes</title><link>https://www.zdpmt.com/en/resources/800g-vs-1-6t-optical-transceivers</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/800g-vs-1-6t-optical-transceivers</guid><description>A manufacturing-focused comparison of 800G and 1.6T optical transceivers covering aggregate bandwidth, electrical lane rates, OSFP and QSFP-DD form factors, thermal density, structural-part CTQs, production risks and RFQ inputs.</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Optical Transceiver Structural Parts</category><category>800G Optical Transceiver</category><category>1.6T Optical Transceiver</category><category>OSFP</category><category>QSFP-DD</category><category>200G Per Lane</category><category>Optical Module Thermal Design</category><category>Precision Structural Parts</category><category>Thermal Interface CTQ</category><category>AI Data Center Interconnect</category><author>Zhongde Precision Engineering Team</author></item><item><title>CNC Machining Process Planning: Functional Datums, Fixturing, Operation Sequence and Inspection</title><link>https://www.zdpmt.com/en/resources/cnc-machining-process-planning-datum-fixturing-inspection</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/cnc-machining-process-planning-datum-fixturing-inspection</guid><description>A practical guide to converting part function and assembly interfaces into CTQs, datum strategy, stock selection, fixturing, rough-to-finish operations, surface treatment allowances and inspection gates.</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>General Precision Manufacturing</category><category>CNC machining</category><category>process planning</category><category>functional datums</category><category>fixturing</category><category>CTQ</category><category>operation sequence</category><category>inspection planning</category><category>production launch</category><author>Zhongde Precision Engineering Team</author></item><item><title>Direct-to-Chip vs Immersion Cooling: Architecture, Applications and Manufacturing Opportunities</title><link>https://www.zdpmt.com/en/resources/direct-to-chip-vs-immersion-cooling</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/direct-to-chip-vs-immersion-cooling</guid><description>Compare direct-to-chip and immersion cooling for data centers, including heat paths, system components, fluids, material compatibility, service models, manufacturing CTQs and precision-part opportunities.</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>AI Server Liquid Cooling</category><category>Direct-to-Chip Cooling</category><category>Immersion Cooling</category><category>Data Center Liquid Cooling</category><category>Cold Plate Cooling</category><category>Immersion Tank</category><category>Liquid Cooling Manufacturing</category><author>Zhongde Precision Engineering Team</author></item><item><title>Global AI Optical Transceiver Supply Chain: How InnoLight, Eoptolink and Coherent Are Positioned Across 800G, 1.6T and CPO</title><link>https://www.zdpmt.com/en/resources/global-ai-optical-transceiver-supply-chain</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/global-ai-optical-transceiver-supply-chain</guid><description>A manufacturing-focused map of the global AI optics supply chain, from lasers, photonic devices, PAM4 DSPs and optical engines to 800G and 1.6T pluggable transceivers, switching silicon, CPO systems, thermal structures and precision manufacturing.</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Optical Transceiver Structural Parts</category><category>AI optical transceiver supply chain</category><category>InnoLight</category><category>Eoptolink</category><category>Coherent</category><category>Lumentum</category><category>800G optics</category><category>1.6T optics</category><category>co-packaged optics</category><category>silicon photonics</category><category>precision structural parts</category><author>Zhongde Precision Engineering Team</author></item><item><title>What Precision Structural Parts Make Up a High-Speed Optical Transceiver? Housings, Thermal Lids, Bases, Pull Tabs and Functional Interfaces</title><link>https://www.zdpmt.com/en/resources/high-speed-optical-transceiver-precision-parts</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/high-speed-optical-transceiver-precision-parts</guid><description>A manufacturing-focused breakdown of thermal lids, precision bases, heatsinks, front panels, optical ports, pull tabs and latch structures, explaining which interfaces control thermal transfer, assembly, insertion, EMI performance and production stability.</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Optical Transceiver Structural Parts</category><category>High-Speed Optical Transceiver Parts</category><category>Optical Transceiver Housing</category><category>Thermal Lid</category><category>Precision Base</category><category>OSFP</category><category>QSFP-DD</category><category>Pull Tab and Latch</category><category>Functional Interface CTQ</category><category>Optical Module Precision Machining</category><author>Zhongde Precision Engineering Team</author></item><item><title>What Is a Liquid Cold Plate? Flow Channels, Materials and Manufacturing CTQs</title><link>https://www.zdpmt.com/en/resources/liquid-cold-plate-structure-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/liquid-cold-plate-structure-manufacturing</guid><description>Understand liquid cold plate heat paths, base and cover structures, serpentine and parallel channels, aluminum and copper selection, and manufacturing CTQs for flatness, pressure drop, cleanliness, sealing and leak testing.</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>AI Server Liquid Cooling</category><category>Liquid Cold Plate</category><category>Liquid Cooling Plate</category><category>Cold Plate Flow Channels</category><category>Cold Plate Materials</category><category>Manufacturing CTQ</category><author>Zhongde Precision Engineering Team</author></item><item><title>Pluggable Optics, LPO, NPO and CPO: Architecture, Thermal Design and Precision-Manufacturing Opportunities</title><link>https://www.zdpmt.com/en/resources/pluggable-optics-lpo-npo-cpo-comparison</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/pluggable-optics-lpo-npo-cpo-comparison</guid><description>A manufacturing-focused comparison of retimed pluggable optics, LPO, NPO and CPO across signal-processing boundaries, optical-engine location, lasers, cooling, serviceability, precision structures, liquid-cooling parts and RFQ inputs.</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Optical Transceiver Structural Parts</category><category>pluggable optics</category><category>LPO</category><category>NPO</category><category>CPO</category><category>co-packaged optics</category><category>AI networking</category><category>optical engine</category><category>silicon photonics</category><category>liquid cooling</category><category>precision structural parts</category><author>Zhongde Precision Engineering Team</author></item><item><title>Server Liquid Cooling Components: Cold Plates, Manifolds, CDUs and Quick Disconnects</title><link>https://www.zdpmt.com/en/resources/server-liquid-cooling-components</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/server-liquid-cooling-components</guid><description>A component-level guide to server liquid cooling BOMs, covering cold plates, server and rack manifolds, quick disconnects, tubing, CDUs, sensors, leak detection and precision-manufactured structural parts.</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>AI Server Liquid Cooling</category><category>Server Liquid Cooling</category><category>Liquid Cooling Components</category><category>Liquid Cold Plate</category><category>Cooling Manifold</category><category>CDU</category><category>Quick Disconnect</category><author>Zhongde Precision Engineering Team</author></item><item><title>Silicon Photonics vs EML Optical Transceivers: Light Source, Modulation, Packaging, Thermal Design and Precision Structures</title><link>https://www.zdpmt.com/en/resources/silicon-photonics-vs-eml-optical-transceivers</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/silicon-photonics-vs-eml-optical-transceivers</guid><description>A manufacturing-focused comparison of silicon-photonics and EML architectures in 800G and 1.6T transceivers, covering laser integration, optical-engine layout, hotspots, fiber interfaces, precision bases, thermal lids, CTQs, prototype validation and production transfer.</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Optical Transceiver Structural Parts</category><category>silicon photonics</category><category>EML</category><category>optical transceiver</category><category>1.6T optics</category><category>optical engine</category><category>CW laser</category><category>thermal management</category><category>precision structural parts</category><category>optical packaging</category><category>CTQ</category><author>Zhongde Precision Engineering Team</author></item><item><title>What Is Liquid Cooling? A Complete Guide for AI Servers and Data Centers</title><link>https://www.zdpmt.com/en/resources/what-is-data-center-liquid-cooling</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/what-is-data-center-liquid-cooling</guid><description>A complete guide to AI server and data center liquid cooling, covering principles, air and water cooling differences, direct-to-chip and immersion architectures, cold plates, manifolds, CDUs, manufacturing CTQs, validation and RFQ requirements.</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>AI Server Liquid Cooling</category><category>What Is Liquid Cooling</category><category>Data Center Liquid Cooling</category><category>Direct-to-Chip Cooling</category><category>Immersion Cooling</category><category>Liquid Cooling Manufacturing</category><author>Zhongde Precision Engineering Team</author></item><item><title>China&apos;s Humanoid Robot Core Component Supply Chain: Actuators, Reducers, Motors, Sensors and Precision Manufacturing Companies</title><link>https://www.zdpmt.com/en/resources/china-humanoid-robot-core-components-supply-chain</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/china-humanoid-robot-core-components-supply-chain</guid><description>Using industry studies from Guosen Securities and Dagong Global Credit Rating, this article maps China&apos;s humanoid robot value chain from upstream core components to robot integration and applications, with a focus on reducers, screws, motors, bearings, sensors, dexterous hands, joint modules and precision structures.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>China humanoid robots</category><category>humanoid supply chain</category><category>joint actuators</category><category>harmonic reducers</category><category>planetary roller screws</category><category>frameless torque motors</category><category>six-axis force sensors</category><category>dexterous hands</category><category>precision manufacturing</category><author>Zhongde Precision Engineering Team</author></item><item><title>How to Control Cold Plate Internal Cleanliness: Particles, Oils, Cleaning, Drying and Packaging</title><link>https://www.zdpmt.com/en/resources/cold-plate-internal-cleanliness-cleaning-drying-packaging</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/cold-plate-internal-cleanliness-cleaning-drying-packaging</guid><description>A manufacturing guide to particles, chips, machining oil, cleaning residues, retained moisture, flushing validation and transport protection for AI server cold plates.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Quality Management</category><category>AI Server Liquid Cooling</category><category>AI server liquid cooling</category><category>cold plate cleanliness</category><category>particle control</category><category>microchannel blockage</category><category>industrial cleaning</category><category>drying</category><category>protective packaging</category><category>FOD control</category><author>Zhongde Precision Engineering Team</author></item><item><title>Data Center Liquid Cooling Explained: Architecture, Components and Manufacturing Interfaces</title><link>https://www.zdpmt.com/en/resources/data-center-liquid-cooling-system-architecture</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/data-center-liquid-cooling-system-architecture</guid><description>Follow the heat path from chips to facility water and understand the cold plates, server manifolds, rack manifolds, CDUs, quick disconnects and manufacturing interfaces used in data center liquid cooling.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>AI Server Liquid Cooling</category><category>Data Center Liquid Cooling</category><category>Liquid Cooling System</category><category>Liquid Cold Plate</category><category>Cooling Manifold</category><category>CDU</category><author>Zhongde Precision Engineering Team</author></item><item><title>Leading Humanoid Robot Technology Compared: Tesla Optimus, Unitree G1/H1, Figure 03, Atlas and NEO</title><link>https://www.zdpmt.com/en/resources/global-humanoid-robot-technology-comparison</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/global-humanoid-robot-technology-comparison</guid><description>A manufacturing-focused comparison of Tesla Optimus, Unitree G1/H1, Figure 03, Boston Dynamics Atlas and 1X NEO, covering joint actuation, transmission, structure, compliance, safety, AI control and production strategy based on public information available through August 2026.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>leading humanoid robots</category><category>Tesla Optimus</category><category>Unitree G1</category><category>Unitree H1</category><category>Figure 03</category><category>Boston Dynamics Atlas</category><category>1X NEO</category><category>humanoid actuator</category><category>humanoid manufacturing</category><category>humanoid technology comparison</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Are Humanoid Robot Feet Manufactured? Ankle Interfaces, Foot Frames, Force Sensing and Impact Control</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-foot-ankle-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-foot-ankle-manufacturing</guid><description>A manufacturing guide to foot load paths, ankle interfaces, sole frames, six-axis force sensors, compliant structures, thin-wall machining, landing impact and production calibration.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>humanoid robot foot</category><category>ankle joint</category><category>foot frame</category><category>six-axis force sensor</category><category>landing impact</category><category>compliant foot</category><category>sole contact</category><category>precision machining</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Are Humanoid Robot Hand Skeletons Manufactured? Palm Frames, Finger Links, Joints, Tendons and Tactile Interfaces</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-hand-finger-skeleton-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-hand-finger-skeleton-manufacturing</guid><description>A manufacturing guide to palm frames, thumb opposition, finger links, joint pins, tendon transmission, compliance, tactile sensing, friction, backlash, calibration and production maintenance.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>humanoid robot hand</category><category>dexterous hand</category><category>palm frame</category><category>finger links</category><category>tendon transmission</category><category>thumb opposition</category><category>tactile sensing</category><category>precision assembly</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Are Humanoid Robot Hip and Knee Joints Manufactured? High-Torque Actuators, Thigh Frames, Impact Loads and Gait Calibration</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-hip-knee-joint-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-hip-knee-joint-manufacturing</guid><description>Using public technology from Tesla Optimus, Unitree H1/G1, Honda ASIMO and Boston Dynamics Atlas, this article explains hip and knee architecture, high-torque actuators, lightweight thigh frames, impact resistance, harnesses and gait calibration.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>humanoid robot hip</category><category>humanoid robot knee</category><category>high torque actuator</category><category>thigh frame</category><category>gait calibration</category><category>Unitree H1</category><category>Tesla Optimus</category><category>Honda ASIMO</category><category>Boston Dynamics Atlas</category><author>Zhongde Precision Engineering Team</author></item><item><title>Why Are Humanoid Robots So Expensive? Actuators, Dexterous Hands, Sensors and Core Component Costs</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-price-core-components</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-price-core-components</guid><description>A manufacturing-focused breakdown of humanoid robot price drivers, including joint actuators, reducers, motors, encoders, bearings, dexterous hands, sensors, computing, structural parts, assembly and calibration from prototype to mass production.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>humanoid robot price</category><category>humanoid robot cost</category><category>humanoid robot components</category><category>joint actuator</category><category>robot reducer</category><category>frameless torque motor</category><category>dexterous hand</category><category>torque sensor</category><category>humanoid mass production</category><category>precision machining</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Are Humanoid Robot Shoulder and Arm Joints Manufactured? 3-DoF Shoulders, Lightweight Arms, Elbows and Cable Routing</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-shoulder-arm-joint-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-shoulder-arm-joint-manufacturing</guid><description>A manufacturing guide to shoulder degrees of freedom, axis geometry, lightweight upper-arm frames, elbow joints, reducer and bearing interfaces, cable routing, backlash, torque sensing, modular assembly and full-arm calibration.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>humanoid robot shoulder</category><category>robot arm joint</category><category>three degree of freedom shoulder</category><category>lightweight upper arm</category><category>elbow joint</category><category>bearing seat</category><category>cable routing</category><category>arm calibration</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Are Humanoid Robot Skeleton Structures Manufactured? Lightweight Torso, Pelvis and Limb Frames</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-skeleton-frame-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-skeleton-frame-manufacturing</guid><description>A manufacturing guide to load paths, mass distribution, topology optimization, materials, joint interfaces, thin-wall distortion, tolerance chains and validation for humanoid torso, pelvis and limb frames.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>humanoid robot skeleton</category><category>robot frame</category><category>torso frame</category><category>pelvis structure</category><category>lightweight limbs</category><category>topology optimization</category><category>thin-wall machining</category><category>joint interfaces</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Are Humanoid Robot Waist and Torso Joints Manufactured? 3-DoF Motion, Lightweight Frames, Load Paths and Calibration</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-waist-torso-joint-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-waist-torso-joint-manufacturing</guid><description>A manufacturing guide to waist degrees of freedom, serial and coupled transmissions, bearing seats, axis alignment, torso stiffness, cable routing, center of mass, backlash, torque sensing, modular assembly and full-body calibration.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>humanoid robot waist</category><category>torso joint</category><category>three degree of freedom waist</category><category>lightweight frame</category><category>bearing seat</category><category>load path</category><category>cable routing</category><category>robot calibration</category><author>Zhongde Precision Engineering Team</author></item><item><title>Joint Actuator Precision Parts and Machining CTQs: Controlling the Rotation Axis, Bearing Fits, Output Flange and Encoder Datum Chain</title><link>https://www.zdpmt.com/en/resources/joint-actuator-precision-parts-machining-ctq</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/joint-actuator-precision-parts-machining-ctq</guid><description>A function-driven guide to the critical dimensional relationships among the housing, reducer locating seat, bearing bores, output flange, encoder interface and motor end cap, including datum strategy, machining sequence, inspection and production control.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Quality Management</category><category>Humanoid Robot Joints</category><category>joint actuator</category><category>precision parts</category><category>CTQ</category><category>coaxiality</category><category>bearing fit</category><category>output flange</category><category>encoder datum</category><category>tolerance stack</category><author>Zhongde Precision Engineering Team</author></item><item><title>Unitree G1 vs H1: Size, Joint Torque, Degrees of Freedom and Applications</title><link>https://www.zdpmt.com/en/resources/unitree-g1-vs-h1-comparison</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/unitree-g1-vs-h1-comparison</guid><description>A manufacturing-focused comparison of Unitree G1 and H1/H1-2 based on official information available through August 2026, covering size, weight, DOF, joint torque, speed, payload, development access, applications and precision manufacturing requirements.</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>Unitree G1</category><category>Unitree H1</category><category>G1 vs H1</category><category>humanoid robot comparison</category><category>humanoid joints</category><category>joint torque</category><category>humanoid degrees of freedom</category><category>embodied AI platform</category><category>humanoid robot selection</category><category>humanoid manufacturing</category><author>Zhongde Precision Engineering Team</author></item><item><title>AI Server Cold Plate Leakage Causes, Leak Testing and Quality Control</title><link>https://www.zdpmt.com/en/resources/ai-server-cold-plate-leak-testing-quality-control</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/ai-server-cold-plate-leak-testing-quality-control</guid><description>A manufacturing-focused guide to real leaks, false test signals, joining defects, port sealing, pressure-decay testing, tracer-gas methods and production traceability for AI server cold plates.</description><pubDate>Mon, 03 Aug 2026 00:00:00 GMT</pubDate><category>Quality Management</category><category>AI Server Liquid Cooling</category><category>AI server liquid cooling</category><category>cold plate leakage</category><category>leak testing</category><category>pressure decay</category><category>tracer gas testing</category><category>proof pressure</category><category>quality control</category><author>Zhongde Precision Engineering Team</author></item><item><title>How to Choose a Cold Plate Joining Process: Vacuum Brazing vs FSW vs Laser Welding</title><link>https://www.zdpmt.com/en/resources/cold-plate-joining-vacuum-brazing-fsw-laser-welding</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/cold-plate-joining-vacuum-brazing-fsw-laser-welding</guid><description>A practical comparison of vacuum brazing, friction stir welding and laser welding for cold plates, covering structural fit, heat input, fixturing, gaps, distortion, leak testing and production stability.</description><pubDate>Mon, 03 Aug 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>AI Server Liquid Cooling</category><category>AI server liquid cooling</category><category>cold plate</category><category>vacuum brazing</category><category>friction stir welding</category><category>FSW</category><category>laser welding</category><category>leak testing</category><author>Zhongde Precision Engineering Team</author></item><item><title>Cold Plate Sealing, Flatness, Leak and Pressure Testing Guide</title><link>https://www.zdpmt.com/en/resources/cold-plate-sealing-flatness-leak-pressure-testing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/cold-plate-sealing-flatness-leak-pressure-testing</guid><description>A practical engineering guide to sealing geometry, free-state and assembled flatness, pneumatic leak testing, proof pressure, post-pressure verification, and production test-system control.</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>Quality Management</category><category>AI Server Liquid Cooling</category><category>cold plate testing</category><category>leak testing</category><category>proof pressure</category><category>flatness</category><category>sealing design</category><category>AI server liquid cooling</category><author>Zhongde Precision Engineering Team</author></item><item><title>What Is Inside a Humanoid Robot Joint Actuator? Components, Interfaces and Machining Priorities</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-joint-actuator-components-machining</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-joint-actuator-components-machining</guid><description>Explore the motor, reducer, bearings, encoders, output flange and actuator housing inside a humanoid robot joint, with a focus on torque flow, alignment, lightweight design and precision machining interfaces.</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>Industry Applications</category><category>Humanoid Robot Joints</category><category>humanoid robot joint actuator</category><category>actuator housing machining</category><category>robot joint motor</category><category>reducer mounting interface</category><category>precision bearing housing</category><category>output flange</category><author>Zhongde Precision Engineering Team</author></item><item><title>How to Machine Humanoid Robot Joint Actuator Housings: Coaxiality, Bearing Seats and Thin-Wall Distortion Control</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-joint-actuator-housing-machining</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-joint-actuator-housing-machining</guid><description>An engineering guide to functional-axis definition, bearing bores, reducer locating features, thin-wall distortion, fixturing, surface treatment and final inspection for humanoid robot joint actuator housings.</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>Humanoid Robot Joints</category><category>joint actuator housing machining</category><category>humanoid robot precision machining</category><category>bearing seats</category><category>coaxiality control</category><category>thin-wall machining</category><category>7075 aluminum machining</category><category>reducer locating features</category><author>Zhongde Precision Engineering Team</author></item><item><title>How to Select Lightweight Materials for Humanoid Robots: 7075 Aluminum, Titanium, PEEK and CFRP</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-lightweight-materials</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-lightweight-materials</guid><description>Compare 7075 aluminum, titanium, PEEK and CFRP for actuator housings, shafts, functional parts and robot links, including stiffness, interfaces, manufacturing risks and suitable applications.</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>Material Knowledge</category><category>Humanoid Robot Joints</category><category>humanoid robot lightweighting</category><category>7075 aluminum</category><category>titanium alloy</category><category>PEEK</category><category>CFRP</category><category>robot material selection</category><author>Zhongde Precision Engineering Team</author></item><item><title>From Prototype to Production: CTQ, Tolerance Stack-Up and Process Control for Humanoid Robot Parts</title><link>https://www.zdpmt.com/en/resources/humanoid-robot-parts-prototype-to-production</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/humanoid-robot-parts-prototype-to-production</guid><description>How precision humanoid robot parts move from prototypes to stable production: define CTQs, build functional tolerance stack-ups, validate the production process and measurement system, then control capability, traceability and change.</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>Quality Management</category><category>Humanoid Robot Joints</category><category>General Precision Manufacturing</category><category>humanoid robot production launch</category><category>CTQ management</category><category>tolerance stack-up</category><category>control plan</category><category>SPC</category><category>Cpk</category><category>measurement system analysis</category><category>process change control</category><author>Zhongde Precision Engineering Team</author></item><item><title>How Microchannel Cold Plates Are Machined: Geometry and Manufacturability</title><link>https://www.zdpmt.com/en/resources/microchannel-cold-plate-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/microchannel-cold-plate-manufacturing</guid><description>A structured DFM guide to microchannel cold plates, covering channel geometry, process routes, flow distribution, burr control, cleaning, sealing, validation, and production readiness.</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>AI Server Liquid Cooling</category><category>microchannel cold plate</category><category>cold plate machining</category><category>CNC micro-milling</category><category>diffusion bonding</category><category>liquid cooling</category><category>manufacturability</category><author>Zhongde Precision Engineering Team</author></item><item><title>From Prototype to Production: CTQs, Tolerance Chains and Batch Control for Optical Transceiver Precision Parts</title><link>https://www.zdpmt.com/en/resources/optical-transceiver-ctq-production-control</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/optical-transceiver-ctq-production-control</guid><description>A practical guide to moving optical transceiver thermal lids, precision bases, heat spreaders and locating housings from prototype validation into repeatable production through CTQ definition, functional tolerance chains, measurement-system validation, capability studies, SPC, traceability and change control.</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>Quality Management</category><category>Optical Transceiver Structural Parts</category><category>General Precision Manufacturing</category><category>Optical transceiver production launch</category><category>CTQ management</category><category>Tolerance stack-up</category><category>Batch control</category><category>SPC</category><category>Cpk</category><category>Measurement systems analysis</category><category>Traceability</category><category>Change management</category><author>Zhongde Precision Engineering Team</author></item><item><title>How to Select Optical Transceiver Heatsink Materials: Extruded Aluminum, CNC Aluminum, Copper and Copper–Aluminum Hybrids</title><link>https://www.zdpmt.com/en/resources/optical-transceiver-heatsink-material-selection</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/optical-transceiver-heatsink-material-selection</guid><description>A manufacturing-focused comparison of 6063 aluminum extrusions, CNC-machined 6061-class aluminum, high-conductivity copper and copper–aluminum hybrid structures for optical transceiver heatsinks, covering spreading resistance, weight, geometry, cost and production risk.</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>Material Knowledge</category><category>Optical Transceiver Structural Parts</category><category>General Precision Manufacturing</category><category>Optical Transceiver Heatsink</category><category>Aluminum Extrusion</category><category>CNC Aluminum</category><category>6063 Aluminum</category><category>6061 Aluminum</category><category>Copper Heat Spreader</category><category>Copper Aluminum Hybrid</category><category>Thermal Spreading</category><category>Heatsink Manufacturing</category><author>Zhongde Precision Engineering Team</author></item><item><title>Surface Treatments for Optical Transceiver Thermal Parts: Anodizing, Electroless Nickel, Masking and Thermal Interface Protection</title><link>https://www.zdpmt.com/en/resources/optical-transceiver-surface-treatment</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/optical-transceiver-surface-treatment</guid><description>An engineering guide to anodizing, electroless nickel, selective masking, post-treatment dimensions and protection of thermal contact surfaces on optical transceiver heatsinks, lids and precision housings.</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>Optical Transceiver Structural Parts</category><category>General Precision Manufacturing</category><category>optical transceiver thermal parts</category><category>anodizing</category><category>electroless nickel</category><category>selective masking</category><category>thermal contact surface</category><category>surface treatment</category><category>contact resistance</category><category>post-treatment inspection</category><author>Zhongde Precision Engineering Team</author></item><item><title>Optical Transceiver Thermal Interfaces: Flatness, Roughness, TIM and Contact Resistance</title><link>https://www.zdpmt.com/en/resources/optical-transceiver-thermal-interface-control</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/optical-transceiver-thermal-interface-control</guid><description>A practical guide to controlling flatness, surface roughness, TIM bond-line thickness, mounting load, finishing and thermal contact resistance between optical transceiver lids, heat spreaders and riding heatsinks.</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>Quality Management</category><category>Optical Transceiver Structural Parts</category><category>General Precision Manufacturing</category><category>optical transceiver thermal management</category><category>thermal contact surface</category><category>flatness</category><category>surface roughness</category><category>thermal interface material</category><category>thermal contact resistance</category><category>bond line thickness</category><category>riding heatsink</category><author>Zhongde Precision Engineering Team</author></item><item><title>AI Server Cold Plate Manufacturing: How to Choose CNC, Brazing, and Microchannels</title><link>https://www.zdpmt.com/en/resources/ai-server-cold-plate-manufacturing-processes</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/ai-server-cold-plate-manufacturing-processes</guid><description>A practical comparison of CNC-machined channels, brazed structures, and microchannel cold plates based on flow-channel design, sealing, thermal performance, machining accuracy, leak testing, and production stability.</description><pubDate>Wed, 29 Jul 2026 00:00:00 GMT</pubDate><category>Process Knowledge</category><category>AI Server Liquid Cooling</category><category>AI server liquid cooling</category><category>cold plate</category><category>cold plate machining</category><category>CNC machining</category><category>brazing</category><category>microchannels</category><author>Zhongde Precision Engineering Team</author></item><item><title>Aluminum vs. Copper Cold Plates: Material, Performance and Manufacturing Trade-Offs</title><link>https://www.zdpmt.com/en/resources/aluminum-vs-copper-liquid-cold-plates</link><guid isPermaLink="true">https://www.zdpmt.com/en/resources/aluminum-vs-copper-liquid-cold-plates</guid><description>A concise comparison of aluminum and copper cold plates covering thermal performance, weight, cost, machinability, corrosion management and hybrid structures.</description><pubDate>Wed, 29 Jul 2026 00:00:00 GMT</pubDate><category>Material Knowledge</category><category>AI Server Liquid Cooling</category><category>aluminum cold plate</category><category>copper cold plate</category><category>cold plate material</category><category>microchannel</category><category>AI server liquid cooling</category><author>Zhongde Precision Engineering Team</author></item></channel></rss>